-----END TEST KEY-----`)

func TestCRLCreation(t *testing.T) {
	block, _ := pem.Decode([]byte(pemPrivateKey))
	privRSA, _ := ParsePKCS1PrivateKey(block.Bytes)
	block, _ = pem.Decode([]byte(pemCertificate))
	certRSA, _ := ParseCertificate(block.Bytes)

	block, _ = pem.Decode([]byte(ed25519CRLKey))
	privEd25519, _ := ParsePKCS8PrivateKey(block.Bytes)
	block, _ = pem.Decode([]byte(ed25519CRLCertificate))

	&& disjoint(op, t1.Size(), p2, t2.Size())
	=> @mem.Block (Load <t1> (OffPtr <op.Type> [o1] p3) mem)
(Load <t1> op:(OffPtr [o1] p1)
	(Store {t2} p2 _
		(Store {t3} p3 _
			mem:(Zero [n] p4 _))))
	&& o1 >= 0 && o1+t1.Size() <= n && isSamePtr(p1, p4)
	&& CanSSA(t1)
	&& disjoint(op, t1.Size(), p2, t2.Size())
	&& disjoint(op, t1.Size(), p3, t3.Size())
	=> @mem.Block (Load <t1> (OffPtr <op.Type> [o1] p4) mem)

(FADDS a (FMULS  x y)) && a.Block.Func.useFMA(v) => (FMADDS  a x y)
(FADDD a (FMULD  x y)) && a.Block.Func.useFMA(v) => (FMADDD  a x y)
(FSUBS a (FMULS  x y)) && a.Block.Func.useFMA(v) => (FMSUBS  a x y)
(FSUBD a (FMULD  x y)) && a.Block.Func.useFMA(v) => (FMSUBD  a x y)
(FSUBS (FMULS  x y) a) && a.Block.Func.useFMA(v) => (FNMSUBS a x y)
(FSUBD (FMULD  x y) a) && a.Block.Func.useFMA(v) => (FNMSUBD a x y)

		// but the critical section is short and dropm is rare on pthread platforms, so just
		// take the lock and play it safe. traceThreadDestroy also asserts that the lock is held.
		lock(&sched.lock)
		traceThreadDestroy(mp)
		unlock(&sched.lock)
	}
	mp.isExtraInSig = false

	// Block signals before unminit.
	// Unminit unregisters the signal handling stack (but needs g on some systems).

	dc.Unlock() // not defer; removeDep finalClose calls may need to lock

	// And now updates that require holding dc.mu.Lock.
	dc.db.mu.Lock()
	dc.dbmuClosed = true
	fn := dc.db.removeDepLocked(dc, dc)
	dc.db.mu.Unlock()
	return fn()
}

func (dc *driverConn) finalClose() error {
	var err error

	// Each *driverStmt has a lock to the dc. Copy the list out of the dc
	// before calling close on each stmt.

}

std::vector<std::pair<int, int>> Translator::ExtractControlEdges(
    mlir::Block* block) {
  std::vector<std::pair<int, int>> control_edges;

  mlir::IRRewriter rewriter(block->getParentOp()->getContext());

  // Since we're modifying *block, we store integer offsets to block->begin().
  llvm::DenseMap<Operation*, int> control_nodes_at;
  std::vector<Operation*> control_nodes;

  let description = [{
    Rearranges data from depth into blocks of spatial data.
    This is the reverse transformation of SpaceToDepth. More specifically,
    this op outputs a copy of the input tensor where values from the `depth`
    dimension are moved in spatial blocks to the `height` and `width`
    dimensions. The attr `block_size` indicates the input block size and how
    the data is moved.
   }];

      unique-uuid-bind-mount "${mountpoint}" "${actual_device}"
    fi
  elif [[ "${format}" == "block" ]]; then
    local symdir="${UUID_BLOCK_PREFIX}-${interface}-block"
    safe-block-symlink "${ssd}" "${symdir}"
  else
    echo "Disk format must be either fs or block, got ${format}"
  fi
}

# Local ssds, if present, are mounted or symlinked to their appropriate
# locations

			// match the one used in makeMethodValue.
			return methodValueCallCodePtr()
		}
		p := v.pointer()
		// Non-nil func value points at data block.
		// First word of data block is actual code.
		if p != nil {
			p = *(*unsafe.Pointer)(p)
		}
		return uintptr(p)
	case Slice:
		return uintptr((*unsafeheader.Slice)(v.ptr).Data)
	case String:

// After setup is done, create symbolic links on both global map path and pod
// device map path. Once symbolic links are created, take fd lock by
// loopback for the device to avoid silent volume replacement. This lock
// will be released once no one uses the device.
// If all steps are completed, the volume is marked as mounted.
func (og *operationGenerator) GenerateMapVolumeFunc(